Actionable security intelligence
Findings with remediation context and summaries for security and engineering.
AI & application security
Static analysis, OWASP LLM coverage, and model-assisted reports that engineers and leadership can both act on.
Findings by severity
Scan scope: OWASP LLM Top 10 · API routes · Dependencies · Model-assisted review
Platform
Traceable analysis, policy, and evidence — not vague “AI magic.”
Findings with remediation context and summaries for security and engineering.
Repo trends, severity mix, and policy posture for program owners.
Project isolation, retention controls, GitHub and pipeline ingest.
How it works
Three stages, consistent evidence from PR check to audit pack.
Repos, zips, or paths — read-scoped GitHub or manual ingest.
Static analysis and policies mapped to OWASP and your standards.
Evidence for audits and concise fixes for developers.
Findings by severity
Scan scope: OWASP LLM Top 10 · API routes · Dependencies · Model-assisted review
Security standard
Testing and reporting aligned to the industry LLM risk reference (2025).
View full OWASP documentationLLM01
Crafted inputs manipulate the model to bypass safeguards, leak instructions, or trigger unintended tool or data access.
LLM02
Models may echo secrets, PII, or proprietary context from prompts, retrieval, or training unless outputs are validated and redacted.
LLM03
Compromised models, datasets, plugins, or dependencies can introduce backdoors and unpredictable behaviour in production agents.
LLM04
Adversarial or low-integrity training or fine-tuning data can skew model behaviour and embed persistent weaknesses.
LLM05
Downstream components that trust LLM output without encoding, validation, or policy checks inherit injection and abuse risk.
LLM06
Over-privileged tools, autonomous loops, or broad API scopes let a single bad completion cause outsized real-world impact.
LLM07
System prompts, hidden policies, and internal instructions can be extracted and replayed to weaken defences or clone behaviour.
LLM08
Poisoned chunks, weak access control on retrieval, or embedding gaps break the trust boundary between corpus and model.
LLM09
Confident but incorrect outputs erode trust, skew decisions, and create compliance exposure when humans over-rely on the model.
LLM10
Abuse of tokens, GPU, or paid APIs enables denial of wallet, noisy neighbour issues, and unstable cost profiles at scale.
Integrations
Meet teams where they work — developers in GitHub, platform engineers in automation.
GitHub App for scans on default branches and pull requests.
Learn more →REST APIs for projects, scans, and reports in your pipelines.
Learn more →Self-managed components when code cannot leave your boundary.
Learn more →Why it matters
$4.45M+
Average breach cost (IBM, 2023)
Application and AI risk shows up as incidents, fines, and churn.
EU AI Act & NIST RMF
Emerging regulatory bar
Documentation and testing expectations for AI are tightening.
First-line defence
Engineering-led security
Early security instrumentation means fewer fire drills later.
“Finally a platform that speaks both engineering and audit. We can show coverage, not just a slide about 'doing AI safely.'”
“OWASP alignment was the table stakes for our enterprise customers. MasSecEval made that narrative factual, not aspirational.”
“The combination of static findings and model-generated remediation notes cut our mean time to remediate dramatically.”
FAQ
Need a deeper architecture review? Our team supports enterprise evaluations.
Talk to usProjects are isolated with distinct storage and vector namespaces. You control what is uploaded, and enterprise deployments can keep data inside your perimeter.
No. MasSecEval's core is static analysis for conventional applications, with explicit coverage for LLM-specific risks where models and retrieval are in scope.
Yes — structured exports and APIs are designed for Jira, ServiceNow-style workflows, and executive reporting packs.
Stand up a workspace, run your first evaluation, or walk through a tailored demo.